One mole of an ideal gas is allowed to expand reversibly and adiabatically from a temperature of 27^°C.If work done during the process is 3kJ then final temperature of gas is (CV=20J/K/mol)

Q. One mole of an ideal gas is allowed to expand reversibly and adiabatically from a temperature of ${27}^{\circ }C$. If the work done during the process is $3kJ$, then final temperature of the gas is: $(C_v=20J/K)$

Q. One mole of an ideal gas is allowed to expand reversibly and adiabatically from a temperature of ${27}^{o}C$. If the work done during the process is 3 kJ, then the final temperature of the gas is: $(C_v=20J/K/mol)$

Q. One mole of ideal gas is allowed to expand reversibly and adiabatically from a temperature of ${27}^{\circ }C$. If the work done by the gas in the process is 3kJ, the final temperature will be equal to: $(C_V=20J/Kmol)$

Q. One mol of an ideal gas is allowed to expand reversibly and adiabatically from a temperature of ${27}^{o}C$. If the work done during the process is 3 kJ, then the final temperature of gas is:
Given: $C_v$ for the gas = $20J/K$

Q. One mole of an ideal gas expands reversibly and adiabatically from a temperature of ${27}^{}C$. If the work done during the process is 3 kJ, then final temperature of the gas is:$(C_V=20J/K)$
(a) 100 K (b) 150 K
(c) 195 K (d) 255 K